1 / 17

Principal Investigators:

Principal Investigators:. Post-doctoral Associate:. For more information about these data please contact Jim Dalling dallingj@life.uiuc.edu. Acknowledgements. Please acknowledge the following agencies that provided funding for the collection and analyses of these data

grinehart
Download Presentation

Principal Investigators:

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript


  1. Principal Investigators: Post-doctoral Associate: For more information about these data please contact Jim Dalling dallingj@life.uiuc.edu

  2. Acknowledgements Please acknowledge the following agencies that provided funding for the collection and analyses of these data NSF DEB021104,021115, 0212284,0212818 and OISE 0314581 STRI Soils Initiative and CTFS Thanks to Paolo Segre and Juan Di Trani for assistance in the field

  3. Table 1. Variogram model fit parameters for soil properties for the BCI 50-ha plot. The measured data values were first transformed using Box-Cox transformation, and then a polynomial trend surface regression was fitted. The residuals from the trend surface regression were used to compute empirical variograms, to which variogram models were fitted. Lambda is the Box-Cox parameter, and trend order indicates the order of the polynomial regression. Effective range for the Exponential variogram model is estimated at 3 times the fitted range because the variogram approaches the sill only asymptotically.

  4. Maps: Filled-contour maps plotted using block average data. pH

  5. Maps: Filled-contour maps plotted using block average data. Aluminum (Al): mg / kg of oven-dried soil

  6. Maps: Filled-contour maps plotted using block average data. Boron (B): mg / kg of oven-dried soil

  7. Maps: Filled-contour maps plotted using block average data. Calcium (Ca): mg / kg of oven-dried soil

  8. Maps: Filled-contour maps plotted using block average data. Copper (Cu): mg / kg of oven-dried soil

  9. Maps: Filled-contour maps plotted using block average data. Iron (Fe): mg / kg of oven-dried soil

  10. Maps: Filled-contour maps plotted using block average data. Potassium (K): mg / kg of oven-dried soil

  11. Maps: Filled-contour maps plotted using block average data. Magnesium (Mg): mg / kg of oven-dried soil

  12. Maps: Filled-contour maps plotted using block average data. Manganese (Mn): mg / kg of oven-dried soil

  13. Maps: Filled-contour maps plotted using block average data. Nitrogen (N): mg / kg of oven-dried soil

  14. Maps: Filled-contour maps plotted using block average data. Nitrogen mineralisation: mg / kg of oven-dried soil

  15. Maps: Filled-contour maps plotted using block average data. Phosphorus (P): mg / kg of oven-dried soil

  16. Maps: Filled-contour maps plotted using block average data. Zinc (Zn): mg / kg of oven-dried soil

More Related